Dr Himadri Gupta
PhD, MSc, FHEA
On this page:
- Current Funded Research Projects
- Current PhD Studentship Projects
- Previous Funded Research Projects
- Previous PhD Studentship Projects
- Other Research Projects
Current Funded Research Projects
Start: 01-01-2021 / End: 30-06-2024
Start: 01-04-2020 / End: 31-03-2023
This grant will cofund the establishing of a mini-CDT with 5 PhD studentships in Graphene materials at QMUL.
Current PhD Studentship Projects
Start: 01-09-2019 / End: 31-03-2023
This project will discover the key damage and deformation processes initiated at the nanoscale in the bone-cartilage unit (BCU) tissue matrix during injurious mechanical loading. We will analyse the structural changes induced by injurious loads in the BCU, using multiscale X-ray imaging techniques combined with in situ mechanics and modelling.
Previous Funded Research Projects
Start: 01-10-2017 / End: 31-07-2021
We seek to understand how age-related changes in articular cartilage link to alterations in its nanoscale mechanics – and eventually to joint breakdown. We use high-brilliance synchrotron X-ray scattering to track fibrillar deformation dynamics in the matrix (hydrated proteoglycans restrained by collagen fibrils), combined with proteomics to assess compositional changes.
Start: 31-03-2018 / End: 30-03-2019
This project will apply simple methods, self-assembly and vitrification, to fabricate nanofibrous hydrogels with controlled nanofibre alignment able to recreate the corneal stroma nano/microarchitectural organization.
Previous PhD Studentship Projects
Start: 01-09-2017 / End: 31-03-2021
Wound healing and hypertrophic scarring are affected by biomechanical forces in the extracellular matrix, but how structural alterations at the nano- and microscale are linked to mechanics is not clear. Here, we study the nanoscale mechanics of keloids (linked to hypertrophic scarring), using in situ SAXS with micromechanics.
Start: 07-10-2013 / End: 06-10-2017
Determining the depth-dependent relationship between the mechanical behaviour and the composition and structure of articular cartilage is crucial in understanding the changes that develop during osteoarthritic degradation. Currently, little is known as to how the networks of collagen fibrils contribute to the tissue’s mechanics, with the fibrils acting ...
Start: 01-12-2012 / End: 30-11-2015
Start: 30-09-2010 / End: 01-10-2015
The EPSRC funded PhD project is interested in the mechanics of the aortic valve, as we try to determine how the structure tolerates extremely high deformations and rapid loading rates. By understanding the tissue structure throughout the hierarchy, we hope to establish the role of each structural component and how ...
Other Research Projects
Devising accurate techniques to understand mechanisms of increased fragility in metabolic bone diseases like osteoporosis is a critically important need. Osteoporosis affects over 3 million people in the UK – it is the leading cause of hospital admission for women over 50. Current diagnostic techniques like dual X-ray…
Bone diseases such as rickets and osteoporosis cause significant reduction in bone quantity and quality, which leads to mechanical abnormalities. However, the precise ultrastructural mechanism by which altered bone quality affects mechanical properties is not clearly understood. In this project, the functional linkage between…
The inelastic deformability of the mineralized matrix in bones is critical to their high toughness, but the nanoscale mechanisms are incompletely understood. We track the fibrillar deformation of antler tissue during cyclic loading using in situ synchrotron small-angle X-ray diffraction (SAXD), finding that residual strain…
Metabolic bone disorders like rickets are associated with altered in-vivo muscular force distributions on the skeletal system. During development, these altered forces can potentially alter the spatial and temporal dynamics of mineralized tissue formation, but the exact mechanisms are not known. We use position – resolved…